ELG3150 Assignment 3

Similar documents
IV Design of Discrete Time Control System by Conventional Methods

Consider serial transmission. In Proakis notation, we receive

[ ] 1+ lim G( s) 1+ s + s G s s G s Kacc SYSTEM PERFORMANCE. Since. Lecture 10: Steady-state Errors. Steady-state Errors. Then

Chapter 10 Time-Domain Analysis and Design of Control Systems

ECEN620: Network Theory Broadband Circuit Design Fall 2014

ELEC 372 LECTURE NOTES, WEEK 4 Dr. Amir G. Aghdam Concordia University

INTRODUCTION TO AUTOMATIC CONTROLS INDEX LAPLACE TRANSFORMS

Chapter (8) Estimation and Confedence Intervals Examples

Worksheet: Taylor Series, Lagrange Error Bound ilearnmath.net

EE Control Systems LECTURE 11

Ordinary Differential Equations

ECEN620: Network Theory Broadband Circuit Design Fall 2014

Introduction to Control Systems

The Performance of Feedback Control Systems

1985 AP Calculus BC: Section I

LECTURE 13 Filling the bands. Occupancy of Available Energy Levels

Lectures 9 IIR Systems: First Order System

Option 3. b) xe dx = and therefore the series is convergent. 12 a) Divergent b) Convergent Proof 15 For. p = 1 1so the series diverges.

Probability & Statistics,

Lectur 22. RF and Microwave Circuit Design Γ-Plane and Smith Chart Analysis. ECE 303 Fall 2005 Farhan Rana Cornell University

Note 6 Frequency Response

High-Speed Serial Interface Circuits and Systems. Lect. 4 Phase-Locked Loop (PLL) Type 1 (Chap. 8 in Razavi)

Chapter 2 Infinite Series Page 1 of 11. Chapter 2 : Infinite Series

PURE MATHEMATICS A-LEVEL PAPER 1

07 - SEQUENCES AND SERIES Page 1 ( Answers at he end of all questions ) b, z = n

MONTGOMERY COLLEGE Department of Mathematics Rockville Campus. 6x dx a. b. cos 2x dx ( ) 7. arctan x dx e. cos 2x dx. 2 cos3x dx

Last time: Completed solution to the optimum linear filter in real-time operation

ln x = n e = 20 (nearest integer)

Dynamic Response of Linear Systems

Statistics 3858 : Likelihood Ratio for Exponential Distribution

u t u 0 ( 7) Intuitively, the maximum principles can be explained by the following observation. Recall

Chapter4 Time Domain Analysis of Control System

Review Exercises. 1. Evaluate using the definition of the definite integral as a Riemann Sum. Does the answer represent an area? 2

EECE 301 Signals & Systems Prof. Mark Fowler

2.004 Dynamics and Control II Spring 2008

Erick L. Oberstar Fall 2001 Project: Sidelobe Canceller & GSC 1. Advanced Digital Signal Processing Sidelobe Canceller (Beam Former)

ELEC9721: Digital Signal Processing Theory and Applications

ENGG 1203 Tutorial. Difference Equations. Find the Pole(s) Finding Equations and Poles

ANOVA- Analyisis of Variance

EE 4343 Lab#4 PID Control Design of Rigid Bodies

State space systems analysis

EE Control Systems

Exercises for lectures 7 Steady state, tracking and disturbance rejection

Generalizing the DTFT. The z Transform. Complex Exponential Excitation. The Transfer Function. Systems Described by Difference Equations

A Review of Complex Arithmetic

+ x. x 2x. 12. dx. 24. dx + 1)

Answer: 1(A); 2(C); 3(A); 4(D); 5(B); 6(A); 7(C); 8(C); 9(A); 10(A); 11(A); 12(C); 13(C)

Engineering Differential Equations Practice Final Exam Solutions Fall 2011

Last time: Ground rules for filtering and control system design

Problem Value Score Earned No/Wrong Rec -3 Total

ME 375 FINAL EXAM Friday, May 6, 2005

Discrete Fourier Transform (DFT)

UNIVERSITY OF BOLTON SCHOOL OF ENGINEERING BENG (HONS) IN MECHANICAL ENGINEERING SEMESTER 1 EXAMINATION 2016/2017

Mechatronics. Time Response & Frequency Response 2 nd -Order Dynamic System 2-Pole, Low-Pass, Active Filter

Taylor and Maclaurin Series

Note: Torque is prop. to current Stationary voltage is prop. to speed

CONTROL SYSTEMS. Chapter 7 : Bode Plot. 40dB/dec 1.0. db/dec so resultant slope will be 20 db/dec and this is due to the factor s

Session : Plasmas in Equilibrium

The Matrix Exponential

THE CONCEPT OF THE ROOT LOCUS. H(s) THE CONCEPT OF THE ROOT LOCUS

Chapter #5 EEE Control Systems

2. SIMPLE SOIL PROPETIES

DTFT Properties. Example - Determine the DTFT Y ( e ) of n. Let. We can therefore write. From Table 3.1, the DTFT of x[n] is given by 1

Chapter Taylor Theorem Revisited

Chapter 4 - The Fourier Series

Time Response. First Order Systems. Time Constant, T c We call 1/a the time constant of the response. Chapter 4 Time Response

732 Appendix E: Previous EEE480 Exams. Rules: One sheet permitted, calculators permitted. GWC 352,

Exercises for lectures 23 Discrete systems

Heat Equation: Maximum Principles

H2 Mathematics Arithmetic & Geometric Series ( )

ECEN 5005 Crystals, Nanocrystals and Device Applications Class 14 Group Theory For Crystals

Lecture 6 - SISO Loop Analysis

Chapter Five. More Dimensions. is simply the set of all ordered n-tuples of real numbers x = ( x 1

ELEC 372 LECTURE NOTES, WEEK 1 Dr. Amir G. Aghdam Concordia University

Iterative Methods of Order Four for Solving Nonlinear Equations

Analysis of Stability &

EE 508 Lecture 6. Scaling, Normalization and Transformation

8.6 Order-Recursive LS s[n]

Beyond the Classical Performance Limitations Controlling Uncertain MIMO Systems: UAV Applications

CDS 101: Lecture 5.1 Reachability and State Space Feedback

The Matrix Exponential

CDS 101: Lecture 9.1 PID and Root Locus

DISCRETE TIME FOURIER TRANSFORM (DTFT)

(Reference: sections in Silberberg 5 th ed.)

EE Control Systems LECTURE 11

z 1+ 3 z = Π n =1 z f() z = n e - z = ( 1-z) e z e n z z 1- n = ( 1-z/2) 1+ 2n z e 2n e n -1 ( 1-z )/2 e 2n-1 1-2n -1 1 () z

6.003 Homework #3 Solutions

Physics 302 Exam Find the curve that passes through endpoints (0,0) and (1,1) and minimizes 1

Chapter 2 Feedback Control Theory Continued

STA 4032 Final Exam Formula Sheet

Time : 1 hr. Test Paper 08 Date 04/01/15 Batch - R Marks : 120

Part B: Transform Methods. Professor E. Ambikairajah UNSW, Australia

Root Locus Contents. Root locus, sketching algorithm. Root locus, examples. Root locus, proofs. Root locus, control examples

MATH 10550, EXAM 3 SOLUTIONS

Superfluid Liquid Helium

They must have different numbers of electrons orbiting their nuclei. They must have the same number of neutrons in their nuclei.

Class 07 Time domain analysis Part II 2 nd order systems

M227 Chapter 9 Section 1 Testing Two Parameters: Means, Variances, Proportions

ECE594I Notes set 6: Thermal Noise

Washington State University

Transcription:

ELG350 Aigmt 3 Aigmt 3: E5.7; P5.6; P5.6; P5.9; AP5.; DP5.4 E5.7 A cotrol ytm for poitioig th had of a floppy dik driv ha th clodloop trafr fuctio 0.33( + 0.8) T ( ) ( + 0.6)( + 4 + 5) Plot th pol ad zro of th ytm ad dicu th domiac of th complx pol. What ovrhoot for a tp iput do you xpct? Solutio Th pol-zro map i how i Figur E5.7a. Sic th domiat pol ar ral, you do ot xpct to hav a larg ovrhoot, a how i Figur E5.7b. Figur 5.7a

Figur 5.7b P5.6 A robot i programmd to hav a tool or wldig torch follow a prcribd path. Coidr a robot tool that i to follow a awtooth path, a how i Fig. P5.6(a) i th txtbook. Th trafr fuctio of th plat i G ( ) 50( + ) ( + 6)( + 9) for th clod-loop ytm how i Fig. 5.6(b) i th txtbook. Calculat th tady-tat rror. Solutio W hav th ramp iput, r(t)t. So ad v 50( + ) 50 lim G( ) lim 0.96 0 0 ( 6)( 9) + + 54 R v 0.96.08

P5.6 Th trafr fuctio of th hart pump ad th pacmakr i foud to b G ( ) ( / + ) Dig th amplifir gai to yild a ytm with a ttlig tim to a tp diturbac of l tha c. Th ovrhoot to a tp i a dird hart rat hould b l tha 0%. (a) Fid a uitabl rag of. (b) If th omial valu of i 0, fid th itivity of th ytm to mall chag i. (c) Evaluat th itivity of part (b) at DC (t 0). (d) Evaluat th magitud of th itivity at th ormal hart rat of 60 bat/miut. Solutio (a) Th clod-loop trafr fuctio i T ) ( + + Th prct ovrhoot pcificatio P.O. 0% impli ζ 0. 59. From th charactritic quatio w fid that Solvig for yild ω ad ζω 6 (0.59) which impli that 8.6 So, ay gai i th itrval 0 < < 8.6 i valid. Th ttlig tim i T 4 / ζω 4 / 6 cod ad atifi th rquirmt. Notic that T i ot a fuctio of. (b) Th itivity i wh 0. (c) Th itivity at DC (0) ) + G( ) S T ( T S ( 0) 0 ( + ) + + 0

(d) I thi ca of 60 bat/miut, jπ. bat/c j π. So, th itivity at jπ i S T 85.084 ( jπ ) 0.77 0.3 P5.9 A ytm i how i Fig. P5.9 i th txtbook. (a) Dtrmi th tady-tat rror for a uit tp iput i trm of ad, whr E()R()-Y(). (b) Slct o that th tady-tat rror i zro. Solutio Th tady-tat rror i ( + 0)( + ) + ( ) 0 + ( ) lim 0 ( + 0)( + ) + 0 + To achiv a zro tady-tat trackig rror, lct a follow + 0 AP5. A clod-loop trafr fuctio i Y ( ) 96( + 3) T ( ) R( ) ( + 8)( + 8 + 36) (a) Dtrmi th tady-tat rror for a uit tp iput R()/. (b) Aum that th complx pol domiat, ad dtrmi th ovrhoot ad ttlig tim to withi % of th fial valu. (c) Plot th actual ytm rpo, ad compar it with th timat of part(b). Solutio (a) Th tady-tat rror i 96(3) lim ( T ( )) R( ) T (0) 0 0 8(36) (b) Aum th complx pol ar domiat. Th, w comput

a 0.75 ζω ic a3, ζ 0. 67 ad ω 6. Uig Figur 5.3 i Dorf & Bihop, w timat th ttlig tim ad prct ovrhoot to b 4 P.O. 45% ad T cod ζω (c) Th tp rpo i how i Figur AP5.. Th actual ttlig tim ad prct ovrhoot ar P.O. 3.4% ad T 0. 937 cod Figur AP5. DP5.4 Th pac atllit how i Fig. DP5.4(a) i th txtbook u a cotrol ytm to radjut it oritatio, a how i Fig. DP5.4(b) i th txtbook. (a) Dtrmi a cod-ordr modl for th clod-loop ytm. (b) Uig th cod-ordr modl, lct a gai o that th prct ovrhoot i l tha 5% ad th tady-tat rror to a tp i l tha %. (c) Vrify your dig by dtrmiig th actual prformac of th third-ordr ytm.

Solutio Th op-loop trafr fuctio i 0 GG c ( ) ( + 90)( + )( + 9) 0 / 90 ( / 90 + )( + )( + 9) Th cod-ordr approximatio i obtaid by glctig th fatt firt-ordr pol. Thu, / 9 GG c ( ) ( + )( + 9) Th clod-loop trafr fuctio i T ( ) / 9 + 0 + 9 + / 9 Wh ζ 0. 5, w hav l tha 5% ovrhoot. So, w hav ad ξω 0 ω + 9 / 9 Elimiatig ω ad olvig for (with P.O. 5%) yild Alo, ad 75 limgg 0 0 ( ) 90(9) p c 8 + p < 0. + / 8 impli 594

Thrfor, 594 75. Uig th cod-ordr modl, w ca lct 75 to mt both pcificatio. Th actual ovrhoot i P.O. 6% ad th tady-tat rror i 9.7%. Lowrig th gai to 63 will atify both pcificatio.